Who are we?
At Antioch, we’re building the future of robotics development: a unified platform that lets teams design, train, and test full-scale robots entirely in high-fidelity cloud simulation — then deploy to real hardware with confidence.
Who are we looking for?
We’re looking for Founding Engineers to join us on this mission, and solve challenging problems across the entire stack:
Physics & simulation infrastructure: Our core physics engine for simulating robots
Deterministic middleware: A real-time middleware layer for deterministic execution
Cloud-sim product: Auth, CI, UX, and tooling for spinning up and interacting with cloud simulation instances
Hardware modules: Integrating and validating arms, cameras, sensors, and other custom peripherals
Middleware modules: Plug-in ML models, motion planning, navigation, and localization stacks
You may be a great fit if…
You’re living in NYC, or you’re willing to relocate here
You’re a high-agency founding engineer who is passionate about our mission: building the future of robotics development
You give a shit about what you build, and are frustrated when others do not
You’re familiar with the 0 → 1 grind, and choose it on purpose
You balance craft and pragmatism; you strive for engineering excellence, but recognize when “good enough now” beats “perfect later”
You embrace uncertainty, autonomously search for answers, and are comfortable diving in anywhere across the stack to solve a problem
You’re commercially-minded, and customer-obsessed
Nice-to-haves
Proficiency in modern C++, Rust, and Python
Experience with ROS/ROS2, or similar robotics middleware frameworks
Experience with NVIDIA Isaac Sim, or other high-fidelity physics engines
Experience in developing real-time and deterministic systems
Experience building distributed services and monitoring systems at scale
Experience with robotics engineering: hardware, embedded systems, RTOS, controls
About Antioch
Antioch helps teams build better robots by shifting development into simulation. Instead of relying on slow, hardware‑bound iteration, robotic systems are defined digitally, validated in parallel scenarios, and deployed with confidence.






